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机器学习模型解码尿路结石疾病与代谢性尿液特征之间的关联。

Machine Learning Models Decoding the Association Between Urinary Stone Diseases and Metabolic Urinary Profiles.

作者信息

Ma Lin, Qiao Yi, Wang Runqiu, Chen Hualin, Liu Guanghua, Xiao He, Dai Ran

机构信息

Department of Urology, Peking Union Medical College Hospital, Chinese Academy of Medical Sciences and Peking Union Medical College, Beijing 100730, China.

Department of Biostatistics, College of Public Health, University of Nebraska Medical Center, Omaha, NE 68198, USA.

出版信息

Metabolites. 2024 Dec 3;14(12):674. doi: 10.3390/metabo14120674.

Abstract

Employing advanced machine learning models, we aim to identify biomarkers for urolithiasis from 24-h metabolic urinary abnormalities and study their associations with urinary stone diseases. We retrospectively recruited 468 patients at Peking Union Medical College Hospital who were diagnosed with urinary stone disease, including renal, ureteral, and multiple location stones, and had undergone a 24-h urine metabolic evaluation. We applied machine learning methods to identify biomarkers of urolithiasis from the urinary metabolite profiles. In total, 148 (34.02%) patients were with kidney stones, 34 (7.82%) with ureter stones, and 163 (34.83%) with multiple location stones, all of whom had detailed urinary metabolite data. Our analyses revealed that the Random Forest algorithm exhibited the highest predictive accuracy, with AUC values of 0.809 for kidney stones, 0.99 for ureter stones, and 0.775 for multiple location stones. The Super Learner Ensemble Method also demonstrated high predictive performance with slightly lower AUC values compared to Random Forest. Further analysis using multivariate logistic regression identified significant features for each stone type based on the Random Forest method. We found that 24-h urinary magnesium was positively associated with both kidney stones and multiple location stones (OR = 1.195 [1.06-1.3525] and 1.3258 [1.1814-1.4949]) due to its high correlation with urinary phosphorus, while 24-h urinary creatinine was a protective factor for kidney stones and ureter stones, with ORs of 0.9533 [0.9117-0.996] and 0.8572 [0.8182-0.8959]. eGFR was a risk factor for ureter stones and multiple location stones, with ORs of 1.0145 [1.0084-1.0209] and 1.0148 [1.0077-1.0223]. Machine learning techniques show promise in revealing the links between urological stone disease and 24-h urinary metabolic data. Enhancing the prediction accuracy of these models leads to improved dietary or pharmacological prevention strategies.

摘要

我们运用先进的机器学习模型,旨在从24小时尿液代谢异常中识别尿路结石的生物标志物,并研究它们与尿路结石疾病的关联。我们在北京协和医院回顾性招募了468例被诊断为尿路结石疾病的患者,包括肾结石、输尿管结石和多部位结石患者,且这些患者均接受了24小时尿液代谢评估。我们应用机器学习方法从尿液代谢物谱中识别尿路结石的生物标志物。总共有148例(34.02%)患者患有肾结石,34例(7.82%)患有输尿管结石,163例(34.83%)患有多部位结石,所有这些患者都有详细的尿液代谢物数据。我们的分析表明,随机森林算法表现出最高的预测准确性,肾结石的AUC值为0.809,输尿管结石为0.99,多部位结石为0.775。超级学习集成方法也表现出较高的预测性能,其AUC值略低于随机森林算法。使用多变量逻辑回归进行的进一步分析基于随机森林方法确定了每种结石类型的显著特征。我们发现,24小时尿镁与肾结石和多部位结石均呈正相关(OR = 1.195 [1.06 - 1.3525]和1.3258 [1.1814 - 1.4949]),因为它与尿磷高度相关,而24小时尿肌酐是肾结石和输尿管结石的保护因素,OR值分别为0.9533 [0.9117 - 0.996]和0.8572 [0.8182 - 0.8959]。估算肾小球滤过率(eGFR)是输尿管结石和多部位结石的危险因素,OR值分别为1.0145 [1.0084 - 1.0209]和1.0148 [1.0077 - 1.0223]。机器学习技术在揭示泌尿系统结石疾病与24小时尿液代谢数据之间的联系方面显示出前景。提高这些模型的预测准确性有助于改进饮食或药物预防策略。

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